Electrical or magnetic forces are far more powerful than gravitational forces, but diminish far more rapidly with increasing distances. Over ranges of a few centimeters to a couple of meters, electrical forces are quite powerful, but for distances of hundreds or thousands of kilometers, electrical forces are vanishing small.
Gravitational forces are weaker, but the diminishing effect with distance is much less. So over interplanetary or interstellar distances, gravity is the ONLY force of any importance.
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When working on anything electrical in a car, it is imperative to have a diagram. A diagram of the cooling fan wiring to a 1996 Mustang can be found in its maintenance manual.
Freezer baskets can beordered as spares through major electrical appliance retailers, or often through the website of the freezer manufacturer. Alternatively, you could order one from ebay.
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The comparable property that underlies electrical forces is charge. Just like mass is associated with gravitational forces, charge is associated with electrical forces. Objects with like charges repel each other, while objects with opposite charges attract each other.
If you could do the measurements at the same distance from both planets, you'd find that the gravitational forces between you and Uranus would be about 14.5 times as strong as the forces between you and the Earth.
The electrical force between the two masses is equal to the gravitational force when the magnitude of the electrical force, given by Coulomb's law, is equal to the magnitude of the gravitational force, given by Newton's law of universal gravitation. By setting these equal and solving for charge, you can find that the charges on the two masses must be around 1.45 x 10^17 C each.
If you could do the measurements at the same distance from both planets, you'd find that the gravitational forces between you and Jupiter would be about 318 times as strong as the forces between you and the Earth.
If you could do the measurements at the same distance from both planets, you'd find that the gravitational forces between you and Venus would be about 19 percent less than the forces between you and the Earth.
If you could do the measurements at the same distance from both planets, you'd find that the gravitational forces between you and Venus would be about 19 percent less than the forces between you and the Earth.
If you could do the measurements at the same distance from both planets, you'd find that the gravitational forces between you and Mars would only be about 11 percent as strong as the forces between you and the Earth.
The gravitational forces between two objects depend on the masses of both of them, and also on the distance between the two objects. There's no such thing as the "gravitational pull" of a single object. If you keep the same 'test object' in both situations, AND measure the gravitational forces at the same separation distance between them, then the gravitational forces between your test object and the star will be greater than those between the test object and a tall building. But if you allow your experimental conditions and protocol to become sloppy, then you can certainly find an object that will be attracted toward a tall building with more force than another object is attracted toward a star at the same distance, and you can certainly find a distance from the tall building where an object is attracted to it with more force than the same object toward a star at a different distance.
The gravitational constant was found by Newton, not Einstein.
the earth's gravitational pull is just strong enought to keep it in orbit, but not strong enought, at that distance, to pull it back to earth
Yes, aluminum is commonly used as a conductor in electrical wiring due to its good conductivity and relative cost-effectiveness compared to copper.
If gravitational forces were cut in half at a football game, players would likely find it much easier to jump higher and cover more ground with each step. The ball might also travel further when kicked. However, players may have difficulty adjusting to the sudden change in physics, leading to some confusion and possibly affecting their overall performance.